
Identify the outputs you'll produce after this course, with a focus on future land-use analysis using GIS tools TerrSet, CA Markov, and ArcGIS.
Meet pre-course requirements for future land use with GIS by mastering land use classification, achieving accuracy, understanding class counts, and having basic GIS knowledge of raster and vector data.
Explore how land use with gis tools like TerrSet, CA Markov, and ArcGIS supports model validation, parameter tuning, and future land-use predictions with machine learning accuracy.
Identify soft requirements for Aceto as the main software for Antoun predictions, including using an impressionist image to derive pixel colors and generating future production inputs.
Discover how to download TerrSet, obtain a student license, and prepare data for future land use analysis in GIS, including licensing steps and data requirements.
Apply a GIS-based methodology with TerrSet, CA Markov, and ArcGIS to generate future land use images for 2030, 50, and 100, ensuring 85 percent accuracy in urban and agriculture mapping.
Learn to work with utm data and satellite imagery in a GIS workflow for future land use, with images already in udma and guidance to the additional task section.
Ensure pixel values consistently map to the same land use class across all data by reclassifying to a common order, preparing data so the model can run correctly.
Prepare land use data for future land use analysis in GIS. Align extents, subset by land use, and apply consistent symbology for validation of 2017 and 2008 classes.
Prepare land use for future input by cutting land-use images with vector tools, standardizing extents to a common UTM, and creating masked mosaics for ArcGIS and TerrSet workflows.
Apply TerrSet CA Markov and ArcGIS to model urban land use, generate a disturbance distance map from 2017 land use, and learn conditional tools to identify new urban areas.
Leverage gis workflow to analyze urban disturbances by creating a disturbance map and computing distances from centers to roads, elevation, and slope using ArcGIS and TerrSet.
Discover how to download road map data from open street map, export and organize it in a working directory, and prepare a road versus water separation workflow.
Download qgis by selecting the appropriate 64-bit or 32-bit standalone installer for your PC, then install and prepare it for future land use GIS processing.
Convert a street map into a shapefile for GIS processing by exporting features. Organize the project folder and ensure the data uses the correct utm projection (utm 43).
Apply a clip to the vector layer to the study area, export with the same coordinate system, and begin separating roads and other features for future analysis.
Separate road features from other line features by querying empty or null values, then edit the attribute table to delete non-road lines and update map, and generate the distance map.
Create a distance map with GIS tools, setting the processing extent and aligning images, and prepare data for future processing with a digital elevation model.
Create an account, log in, and download a global digital elevation model for a defined area to support future land use with GIS.
Prepare a digital elevation model for a prediction model by validating projection, converting to utm, and clipping to study area, then fill gaps to fix data and adjust elevation visualization.
Convert land use rasters in Erdas for ArcGIS modeling by creating a subset, converting to 8-bit unsigned, and adjusting display colors to reflect defined land use classes.
Learn to process land use in ArcGIS by converting raster data to 8-bit unsigned pixels and classifying water, greenery, and agriculture across 2001, 2008, and 2017.
Master slope analysis within GIS workflow using TerrSet, CA Markov, and ArcGIS. Load a digital elevation model, generate clusters, organize outputs, and prepare data processing for future land-use work.
Arrange data in a dedicated folder for batch processing to convert into a dataset-friendly format for future land use modeling in GIS, using TerrSet and ArcGIS.
Learn how to add an optional road layer to main GIS data, align dimensions, and produce a usable raster for future land use modeling with TerrSet, CA Markov, and ArcGIS.
Open TerrSet, create a new project, and establish a data set folder on your drive, then locate and select the data for processing to begin the workflow.
Convert tiff files for the model by importing a folder, refreshing the file view, and preparing land use data in ArcGIS for the TerrSet CA Markov workflow.
Set up land change modeler by creating a new scenario, naming land cover classes with ids, selecting categories, and generating a change map to analyze gain, loss, and net change.
Analyze land use change by estimating spatial trend probabilities with a CA Markov model in TerrSet and ArcGIS. Explore transitions among agriculture, forest, and water.
Set up and understand the transition submodel for land change in GIS, detailing transition potential, parameters, and class conversions, with submodel configuration in TerrSet, CA Markov, and ArcGIS.
Evaluate variable importance and explanatory power to identify drivers in a TerrSet CA Markov ArcGIS land-use model, testing how factors like slope, distance, elevation, water, and agriculture influence outcomes.
Operate machine learning with an mlp neural network to predict land use, using a 50/50 training/testing split, iterative model runs, and validation against 2017 land use in TerrSet and ArcGIS.
Run a Markov chain model to generate future land use images in GIS, compare predicted 2017 outcomes with current data, and assess direction of change and validation.
In this course you will see Machine learning in Action using readymade land Change model Terrset (formerly IDRISI ) . This course used Terrset Software with CA Markov method to predict future landuse ArcGIS is used to prepare data. Erdas also used for some task. No coding is used .All software used in this course are NOT Open Source. You need to manage software. You must know to prepare landuse maps rest of things covered in this course from scratch. Future prediction of landuse depends on number of drivers/Parameters. Drives means forces which decide how the future urban area will look. It includes many drives like, old city boundary because new settlement will be constructed near to old city boundary. Roads and relief are also one of factors, because first roads near city covered by settlement. On another side how, much possibility at different location on agriculture site that can be convert to urban. Similarly, forest cover also. We also need to avoid some landuse classed like water, river, lake or reservoir never convert to urban. So, we need to setup our model in such a way so that it avoids water. After setting accuracy of learning and output accuracy also matters. We also need to modify it. In this course we have achieved learning accuracy of 42%, and 67% in two different runs. But 89% accuracy we have achieved in predicted landuse. Learning and prediction accuracy is different on computer to computer and data to data. While running you will receive more or less accuracy then this course. But focus on your output results. If Learning accuracy was 100% then it also wrong. So, see and understand each video carefully. Then run you model. You must see free preview video before enrolling this course. Because this is Expert level course.
Note: Who having IDRISI Taiga They can also follow same steps.
This course covers 90% Practical and 10% Theory.
Don’t hesitate to ask me Questions in QA Session.